Literature DB >> 20149854

Mechanics of the frog ear.

Pim Van Dijk1, Matthew J Mason, Richard L M Schoffelen, Peter M Narins, Sebastiaan W F Meenderink.   

Abstract

The frog inner ear contains three regions that are sensitive to airborne sound and which are functionally distinct. (1) The responses of nerve fibres innervating the low-frequency, rostral part of the amphibian papilla (AP) are complex. Electrical tuning of hair cells presumably contributes to the frequency selectivity of these responses. (2) The caudal part of the AP covers the mid-frequency portion of the frog's auditory range. It shares the ability to generate both evoked and spontaneous otoacoustic emissions with the mammalian cochlea and other vertebrate ears. (3) The basilar papilla functions mainly as a single auditory filter. Its simple anatomy and function provide a model system for testing hypotheses concerning emission generation. Group delays of stimulus-frequency otoacoustic emissions (SFOAEs) from the basilar papilla are accounted for by assuming that they result from forward and reverse transmission through the middle ear, a mechanical delay due to tectorial membrane filtering and a rapid forward and reverse propagation through the inner ear fluids, with negligible delay.
Copyright © 2010 Elsevier B.V. All rights reserved.

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Year:  2010        PMID: 20149854      PMCID: PMC3023005          DOI: 10.1016/j.heares.2010.02.004

Source DB:  PubMed          Journal:  Hear Res        ISSN: 0378-5955            Impact factor:   3.208


  54 in total

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Authors:  Christopher A Shera; Arnold Tubis; Carrick L Talmadge
Journal:  J Acoust Soc Am       Date:  2008-07       Impact factor: 1.840

2.  Mechanics of the inner ear of the bullfrog (Rana catesbeiana): the contact membranes and the periotic canal.

Authors:  A P Purgue; P M Narins
Journal:  J Comp Physiol A       Date:  2000-05       Impact factor: 1.836

3.  A model for energy flow in the inner ear of the bullfrog (Rana catesbeiana).

Authors:  A P Purgue; P M Narins
Journal:  J Comp Physiol A       Date:  2000-05       Impact factor: 1.836

4.  Distortion product otoacoustic emissions in the tree frog Hyla cinerea.

Authors:  P van Dijk; G A Manley
Journal:  Hear Res       Date:  2001-03       Impact factor: 3.208

5.  Frequency matching of vocalizations to inner-ear sensitivity along an altitudinal gradient in the coqui frog.

Authors:  Sebastiaan W F Meenderink; Mirja Kits; Peter M Narins
Journal:  Biol Lett       Date:  2009-11-25       Impact factor: 3.703

6.  Otoacoustic emissions in humans, birds, lizards, and frogs: evidence for multiple generation mechanisms.

Authors:  Christopher Bergevin; Dennis M Freeman; James C Saunders; Christopher A Shera
Journal:  J Comp Physiol A Neuroethol Sens Neural Behav Physiol       Date:  2008-05-24       Impact factor: 1.836

7.  Tuning of the tectorial membrane in the basilar papilla of the northern leopard frog.

Authors:  R L M Schoffelen; J M Segenhout; P van Dijk
Journal:  J Assoc Res Otolaryngol       Date:  2009-06-02

Review 8.  Hair cells, hearing and hopping: a field guide to hair cell physiology in the frog.

Authors:  M S Smotherman; P M Narins
Journal:  J Exp Biol       Date:  2000-08       Impact factor: 3.312

9.  Vibrometric studies of the middle ear of the bullfrog Rana catesbeiana II. The operculum.

Authors:  Matthew J Mason; Peter M Narins
Journal:  J Exp Biol       Date:  2002-10       Impact factor: 3.312

10.  Vibrometric studies of the middle ear of the bullfrog Rana catesbeiana I. The extrastapes.

Authors:  Matthew J Mason; Peter M Narins
Journal:  J Exp Biol       Date:  2002-10       Impact factor: 3.312

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  16 in total

1.  Exocytosis in the frog amphibian papilla.

Authors:  Patricia M Quiñones; Cindy Luu; Felix E Schweizer; Peter M Narins
Journal:  J Assoc Res Otolaryngol       Date:  2011-11-29

2.  The frog inner ear: picture perfect?

Authors:  Matthew J Mason; Johannes M Segenhout; Ariadna Cobo-Cuan; Patricia M Quiñones; Pim van Dijk
Journal:  J Assoc Res Otolaryngol       Date:  2015-01-29

3.  Recovery of otoacoustic emissions after high-level noise exposure in the American bullfrog.

Authors:  Dwayne D Simmons; Rachel Lohr; Helena Wotring; Miriam D Burton; Rebecca A Hooper; Richard A Baird
Journal:  J Exp Biol       Date:  2014-02-05       Impact factor: 3.312

4.  External and middle ear sound pressure distribution and acoustic coupling to the tympanic membrane.

Authors:  Christopher Bergevin; Elizabeth S Olson
Journal:  J Acoust Soc Am       Date:  2014-03       Impact factor: 1.840

5.  Basilar membrane and tectorial membrane stiffness in the CBA/CaJ mouse.

Authors:  I U Teudt; C P Richter
Journal:  J Assoc Res Otolaryngol       Date:  2014-05-28

6.  MEMRI for visualizing brain activity after auditory stimulation in frogs.

Authors:  Eva Ringler; Melissa Coates; Ariadna Cobo-Cuan; Neil G Harris; Peter M Narins
Journal:  Behav Neurosci       Date:  2019-05-02       Impact factor: 1.912

Review 7.  Using Xenopus to discover new genes involved in branchiootorenal spectrum disorders.

Authors:  Sally A Moody; Karen M Neilson; Kristy L Kenyon; Dominique Alfandari; Francesca Pignoni
Journal:  Comp Biochem Physiol C Toxicol Pharmacol       Date:  2015-06-24       Impact factor: 3.228

8.  Pa2G4 is a novel Six1 co-factor that is required for neural crest and otic development.

Authors:  Karen M Neilson; Genevieve Abbruzzesse; Kristy Kenyon; Vanessa Bartolo; Patrick Krohn; Dominique Alfandari; Sally A Moody
Journal:  Dev Biol       Date:  2016-12-09       Impact factor: 3.582

9.  Sex differences and endocrine regulation of auditory-evoked, neural responses in African clawed frogs (Xenopus).

Authors:  Ian C Hall; Sarah M N Woolley; Ursula Kwong-Brown; Darcy B Kelley
Journal:  J Comp Physiol A Neuroethol Sens Neural Behav Physiol       Date:  2015-11-14       Impact factor: 1.836

Review 10.  Changes in the adult vertebrate auditory sensory epithelium after trauma.

Authors:  Elizabeth C Oesterle
Journal:  Hear Res       Date:  2012-11-20       Impact factor: 3.208

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